Abstract
This study presents the development and implementation of an advanced hybrid neural network (HNN) model for predicting nitrogen oxide (NOx) emissions and controlling ammonia (NH3) injection in a 1-GW generator within a 2-GW operational coal-fired power plant. The HNN model, which integrates both endogenous and exogenous input features to effectively analyze complex relationships, shows significant improvement in accuracy with a forecast skill of 22% compared to multiple benchmark models. The real-world application of the HNN-based control strategy resulted in a slight increase in average outlet NOx concentration but remained well within the regulated limit of 50 ppm, while reducing the standard deviation from 9.7 to 4.9 ppm, indicating a more stable and controlled outlet NOx concentration. The successful deployment of the HNN model in an operational power plant demonstrates its practical applicability and effectiveness in large-scale industrial settings, ultimately supporting the transition toward a sustainable energy future. © 2024 IEEE.
Original language | English |
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Pages (from-to) | 11806-11814 |
Journal | IEEE Transactions on Industrial Informatics |
Volume | 20 |
Issue number | 10 |
Online published | 27 Jun 2024 |
DOIs | |
Publication status | Published - Oct 2024 |
Research Keywords
- Adaptation models
- Analytical models
- Deep learning
- edge computing
- environment protection
- Forecasting
- hybrid learning
- Neural networks
- Neurons
- nitrogen dioxides
- pollutant control
- Power generation
- Predictive models